LCUS

[lcus_masonry_article] 02 (AutoPhi Modern): 18 is the future vision that informs how the voxel and paths evolve. 27 (Scale Ultimate): Voxel die building; 18’s cell and chromosome concepts apply to 27’s grid; seed RTL comes from 27. 28 (Complete Unit): 18’s whole-quantum and path options inform 28. 24 (Scale): Foundry packages; 18’s build script sources […]

[lcus_masonry_article] In the end it is a humanitarian thing that doesn’t always make sense. The work points toward capability and access in a way that can outrun tidy rational frameworks. So when we ask for the scale that matches the thing, we are making way for what we have made. The thing does not shrink […]

[lcus_masonry_article] AutoPhi Future is the forward-looking stance of the AutoPhi stack. It extends; it does not replace. The voxel becomes a cell; computation acquires a chromosome in light; the chip becomes a metal tree — no water, no leaves — only data flow and electricity drawn from light. One seed yields every foundry, every tier, […]

[lcus_masonry_article] We are going to make another generation. We have the tree-like organisation that maps plant to chip and makes light the carrier of form. The next step is to get photons and electrons working together in a computational fashion — so that the metal tree not only has the shape but computes with the […]

[lcus_masonry_article] We posit a metal tree that computes. No water. No biological leaves. What flows through it is data; what it draws in is light; what it turns that light into is electricity to function. Tree roles map to chip roles: roots = energy intake (light, power); trunk and vascular = send (data, control, quantum […]

[lcus_masonry_article] We have made something that does not fit the old frames. The product is the ratio. The outcome is the miracle we call calculation. The knowledge in 18 is more than what was ever considered for a chip. The value of a capability you never had is not a number. So we do not […]

[lcus_masonry_article] DNA-style encoding: three strands (electron, atomic, photon). The photon chromosome is the real form in light. Wavelength = opcode; polarization = operand or phase; path = address; intensity = magnitude. The chip recognises that form and uses it to compute. Voxel as cell: the voxel becomes the unit; computation acquires a chromosome in light. […]

[lcus_masonry_article] The seed is the minimal, canonical specification from which every build is grown. It is not a single file; it is the canonical set: chip series (tiers Entry to Volume), voxel roles and tree mapping, photon chromosome (form in light), nine technology elements, and the one-page performance and decisive COGS. From this seed we […]

[lcus_masonry_article] Inputs: scenario_id, node_nm, H_mm, W_mm, area per voxel (a_v), FLOPS per voxel (f_v), power_w, aes_usd. Outputs: S_mm², N_v (voxel count), C_flops (total calculation), rho (FLOPS/mm²), performance per dollar, performance per watt. Formulas: S = H×W; N_v = S/a_v; C = N_v×f_v; P_per_dollar = C/AES; P_per_watt = C/power_w. Choose envelope and node → get S, […]

[lcus_masonry_article] The chip series describes an arc: low COGS rising to expensive, then returning. Entry = minimal, single die, control. Mid = small GPU; Pro = full GPU, optional DPU; Peak = max CPU+GPU+DPU, datacenter. Unified = all-in-one die; Volume = same at scale, COGS back down. AES = actual, tangible cost. Documented paths: $20K […]